Publications of P. F. Chen

A list of publications authored or co-authored by P. F. Chen, derived from the SAO/NASA Astrophysics Data System (ADS). The number in brackets after each title indicates the number of citations that the paper has received.

Orcid ID: 0000-0002-7289-642X

List of publications ordered by citations
Number of papers: 164 (refereed: 158)
No. of citations: 6522
First author papers: 30 (refereed: 29)

2025

  1. Solar Filament Physiognomy: Inferring Magnetic Quantities from Imaging Observations [0]
    Chen, P. F., Solar Physics, 300, 172
  2. Statistical Analyses of Solar Active Regions in SDO/HMI Magnetograms Detected by the Unsupervised Machine Learning Method DSARD [0]
    Chen, R., Lu, W., Hao, Q., Meng, Y., Chen, P. F. & Shi, C., ApJS, 280, 70
  3. A Successful Sheared-arcade Eruption Triggered by a Failed Erupted Small Filament [0]
    Fu, Wentai, Ni, Yiwei, Guo, Jinhan, Guo, Yang, Chen, P. F. & Ding, Mingde, ApJ, 986, 95
  4. The Birth of a Major Coronal Mass Ejection with Intricate Magnetic Structure from Multiple Active Regions [4]
    Guo, J. H., Ni, Y. W., Schmieder, B., Guo, Y., Xia, C., Devi, P., Chandra, R., Poedts, S., Joshi, R., Zhou, Y. H., Li, H. T. & Chen, P. F., ApJ, 983, 48
  5. A Unified Model of Solar Prominence Formation with Self-consistent Heating [2]
    Huang, C. J., Ni, Y. W., Guo, J. H. & Chen, P. F., ApJ, 991, 215
  6. Dependence of the intensity of the non-wave component of extreme UV waves on the coronal magnetic field configuration [0]
    Li, Y. W., Guo, J. H., Ni, Y. W., Zhang, Z. Y. & Chen, P. F., A&A, 698, A316
  7. Simulating the Ring-shaped Line-of-sight Flows in Prominence-cavity Systems [0]
    Liu, Tie, Guo, Yang, Su, Yingna, Guo, Jinhan, Ni, Yiwei, Qiu, Ye, Zhao, Jie, Li, Chuan, Ji, Haisheng, Chen, Pengfei & Ding, Mingde, ApJ, 993, 101
  8. A Peculiar Feature of the First Ionization Potential Effect Before a Solar Flare Impulsive Phase Observed by MSS-1B, CHASE, and SDO [2]
    Ng, Man-Hei, Zhang, Xiaoping & Chen, P. F., ApJ, 979, 86
  9. Simultaneous Existence of Oscillations, Counterstreaming Flows, and Mass Injections in Solar Quiescent Prominences [5]
    Yan, Xiaoli, Xue, Zhike, Wang, Jincheng, Chen, Pengfei, Ji, Kaifan, Xia, Chun, Yang, Liheng, Kong, Defang, Xu, Zhe, Zhou, Yian & Li, Qiaoling, ApJ, 981, 139
  10. Predicting Solar Flares Using a Convolutional Neural Network with Extreme-ultraviolet Images [1]
    Yang, Yun, Ni, Yi Wei, Chen, P. F. & Feng, Xue Shang, ApJ, 985, 104
  11. The Magnetic Origin of the Mystery of Rare Hα Moreton Waves [2]
    Zhong, Ze, Chen, Yao, Ni, Y. W., Chen, P. F., Zheng, Ruisheng, Kong, Xiangliang & Li, Chuan, ApJ, 980, 42
  12. Active region upflows in various coronal structures and their coupling to the lower atmosphere [1]
    Zhu, Y., Harra, L., Barczynski, K., Janitzek, N., Plowman, J., Mzerguat, S., Auchère, F., Thompson, W. T., Parenti, S., Chitta, L. P., Peter, H., Fredvik, T., Grundy, T., Ni, Y. W., Chen, P. F. & Valori, G., A&A, 701, A205

2024

  1. Direct Evidence of the Hybrid Nature of Extreme-ultraviolet Waves and the Reflection of the Fast-mode Wave [3]
    Chandra, Ramesh, Chen, P. F. & Devi, Pooja, ApJ, 971, 53
  2. Data-driven Modeling of a Coronal Magnetic Flux Rope: From Birth to Death [26]
    Guo, J. H., Ni, Y. W., Guo, Y., Xia, C., Schmieder, B., Poedts, S., Zhong, Z., Zhou, Y. H., Yu, F. & Chen, P. F., ApJ, 961, 140
  3. Unveiling Mass Transfer in Solar Flares: Insights from Elemental Abundance Evolutions Observed by Chang'E-2 Solar X-Ray Monitor [5]
    Ng, Man-Hei, Tang, Chi-Long, Zhang, Xiaoping, Tam, Kuan-Vai, Chen, Peng-Fei, Dong, Wudong, Li, Jing & Tang, Chi-Pui, ApJ, 972, 123
  4. Height-dependent differential rotation of the solar atmosphere detected by CHASE [11]
    Rao, Shihao, Li, Chuan, Ding, Mingde, Hong, Jie, Chen, Feng, Fang, Cheng, Qiu, Ye, Li, Zhen, Chen, Pengfei, Li, Kejun, Hao, Qi, Guo, Yang, Cheng, Xin, Dai, Yu, Peng, Zhixin, You, Wei & Yuan, Yuan, Nature Astronomy, 8, 1102
  5. How Switchbacks Can Maintain a Longer Time in the Interplanetary Space [2]
    Yang, Y., Su, W. & Chen, P. F., ApJ, 969, 17
  6. Statistical Analyses of Solar Prominences and Active Region Features in 304 Å Filtergrams Detected via Deep Learning [9]
    Zhang, T., Hao, Q. & Chen, P. F., ApJS, 272, 5
  7. Comprehensive Analysis of a Filament-embedding Solar Active Region at Different Stages of Evolution [3]
    Zhao, Jie, Yu, Fu, Gibson, Sarah E., Fan, Yuhong, Su, Yang, Li, Ying, Dai, Jun, Li, Hui, Li, Chuan, Chen, Pengfei, Ding, Ming-De & Fang, Cheng, ApJ, 965, L16

2023

  1. The Sun is becoming more active than expected [9]
    Chen, PengFei, Science China Physics, Mechanics, and Astronomy, 66, 129631
  2. Can the Parker Solar Probe Detect a CME-flare Current Sheet? [2]
    Chen, Yuhao, Liu, Zhong, Chen, Pengfei, Webb, David F., Hao, Qi, Hu, Jialiang, Cheng, Guanchong, Mei, Zhixing, Ye, Jing, Wang, Qian & Lin, Jun, ApJS, 269, 22
  3. Thermodynamic and Magnetic Topology Evolution of the X1.0 Flare on 2021 October 28 Simulated by a Data-driven Radiative Magnetohydrodynamic Model [33]
    Guo, J. H., Ni, Y. W., Zhong, Z., Guo, Y., Xia, C., Li, H. T., Poedts, S., Schmieder, B. & Chen, P. F., ApJS, 266, 3
  4. Understanding the Lateral Drifting of an Erupting Filament with a Data-constrained Magnetohydrodynamic Simulation [19]
    Guo, J. H., Qiu, Y., Ni, Y. W., Guo, Y., Li, C., Gao, Y. H., Schmieder, B., Poedts, S. & Chen, P. F., ApJ, 956, 119
  5. Data-constrained Magnetohydrodynamic Simulation of an Intermediate Solar Filament Eruption [8]
    Guo, Yang, Guo, Jinhan, Ni, Yiwei, Ding, M. D., Chen, P. F., Xia, Chun, Keppens, Rony & Yang, Kai E., ApJ, 958, 25
  6. Formation of a Long Filament Through the Connection of Two Filament Segments Observed by CHASE [9]
    Li, H. T., Cheng, X., Ni, Y. W., Li, C., Rao, S. H., Guo, J. H., Ding, M. D. & Chen, P. F., ApJ, 958, L42
  7. Evaluating residual acceleration noise for the TianQin gravitational waves observatory with an empirical magnetic field model [13]
    Su, Wei, Zhou, Ze-Bing, Wang, Yan, Zhou, Chen, Chen, P. F., Hong, Wei, Peng, J. H., Yang, Yun & Ni, Y. W., Physical Review D, 108, 103030
  8. Space Plasma Physics: A Review [46]
    Tsurutani, Bruce T., Zank, Gary P., Sterken, Veerle J., Shibata, Kazunari, Nagai, Tsugunobu, Mannucci, Anthony J., Malaspina, David M., Lakhina, Gurbax S., Kanekal, Shrikanth G., Hosokawa, Keisuke, Horne, Richard B., Hajra, Rajkumar, Glassmeier, Karl-Heinz, Gaunt, C. Trevor, Chen, Peng-Fei & Akasofu, Syun-Ichi, IEEE Transactions on Plasma Science, 51, 1595
  9. Prediction of the Transit Time of Coronal Mass Ejections with an Ensemble Machine-learning Method [10]
    Yang, Y., Liu, J. J., Feng, X. S., Chen, P. F. & Zhang, B., ApJS, 268, 69
  10. Why "Solar Tsunamis" Rarely Leave Their Imprints in the Chromosphere [22]
    Zheng, Ruisheng, Liu, Yihan, Liu, Wenlong, Wang, Bing, Hou, Zhenyong, Feng, Shiwei, Kong, Xiangliang, Huang, Zhenghua, Song, Hongqiang, Tian, Hui, Chen, Pengfei, Erdélyi, Robertus & Chen, Yao, ApJ, 949, L8

2022

  1. Dynamics and Kinematics of the EUV Wave Event on 6 May 2019 [6]
    Chandra, Ramesh, Chen, P. F., Devi, Pooja, Joshi, Reetika & Ni, Y. W., Galaxies, 10, 58
  2. Prominence oscillations activated by an EUV wave [12]
    Devi, Pooja, Chandra, Ramesh, Joshi, Reetika, Chen, P. F., Schmieder, Brigitte, Uddin, Wahab & Moon, Yong-Jae, Advances in Space Research, 70, 1592
  3. Prominence fine structures in weakly twisted and highly twisted magnetic flux ropes [22]
    Guo, J. H., Ni, Y. W., Zhou, Y. H., Guo, Y., Schmieder, B. & Chen, P. F., A&A, 667, A89
  4. The Chinese Hα Solar Explorer (CHASE) mission: An overview [123]
    Li, Chuan, Fang, Cheng, Li, Zhen, Ding, MingDe, Chen, PengFei, Qiu, Ye, You, Wei, Yuan, Yuan, An, MinJie, Tao, HongJiang, Li, XianSheng, Chen, Zhe, Liu, Qiang, Mei, Gui, Yang, Liang, Zhang, Wei, Cheng, WeiQiang, Chen, JianXin, Chen, ChangYa, Gu, Qiang, Huang, QingLong, Liu, MingXing, Han, ChengShan, Xin, HongWei, Chen, ChangZheng, Ni, YiWei, Wang, WenBo, Rao, ShiHao, Li, HaiTang, Lu, Xi, Wang, Wei, Lin, Jun, Jiang, YiXian, Meng, LingJie & Zhao, Jian, Science China Physics, Mechanics, and Astronomy, 65, 289602
  5. Decayless longitudinal oscillations of a solar filament maintained by quasi-periodic jets [18]
    Ni, Y. W., Guo, J. H., Zhang, Q. M., Chen, J. L., Fang, C. & Chen, P. F., A&A, 663, A31
  6. Calibration procedures for the CHASE/HIS science data [61]
    Qiu, Ye, Rao, ShiHao, Li, Chuan, Fang, Cheng, Ding, MingDe, Li, Zhen, Ni, YiWei, Wang, WenBo, Hong, Jie, Hao, Qi, Dai, Yu, Chen, PengFei, Wan, XiaoSheng, Xu, Zhi, You, Wei, Yuan, Yuan, Tao, HongJiang, Li, XianSheng, He, YuKun & Liu, Qiang, Science China Physics, Mechanics, and Astronomy, 65, 289603
  7. Quantifying the Magnetic Structure of a Coronal Shock Producing a Type II Radio Burst [10]
    Su, W., Li, T. M., Cheng, X., Feng, L., Zhang, P. J., Chen, P. F., Ding, M. D., Chen, L. J., Guo, Y., Wang, Y., Li, D. & Zhang, L. Y., ApJ, 929, 175
  8. Cross-loop Propagation of a Quasiperiodic Extreme-ultraviolet Wave Train Triggered by Successive Stretching of Magnetic Field Structures during a Solar Eruption [16]
    Sun, Zheng, Tian, Hui, Chen, P. F., Yao, Shuo, Hou, Zhenyong, Chen, Hechao & Chen, Linjie, ApJ, 939, L18

2021

  1. Fine Structures of an EUV Wave Event from Multi-viewpoint Observations [7]
    Chandra, Ramesh, Chen, P. F., Devi, Pooja, Joshi, Reetika, Schmieder, Brigitte, Moon, Yong-Jae & Uddin, Wahab, ApJ, 919, 9
  2. Formation and Characteristics of Filament Threads in Double-dipped Magnetic Flux Tubes [15]
    Guo, J. H., Zhou, Y. H., Guo, Y., Ni, Y. W., Karpen, J. T. & Chen, P. F., ApJ, 920, 131
  3. Magnetic Twists of Solar Filaments [26]
    Guo, J. H., Ni, Y. W., Qiu, Y., Zhong, Z., Guo, Y. & Chen, P. F., ApJ, 917, 81
  4. Data-constrained Magnetohydrodynamic Simulation of a Long-duration Eruptive Flare [31]
    Guo, Yang, Zhong, Ze, Ding, M. D., Chen, P. F., Xia, Chun & Keppens, Rony, ApJ, 919, 39
  5. A Unified Model of Solar Prominence Formation [27]
    Huang, C. J., Guo, J. H., Ni, Y. W., Xu, A. A. & Chen, P. F., ApJ, 913, L8
  6. Particle-in-cell simulation of plasma emission in solar radio bursts [3]
    Li, T. M., Li, C., Chen, P. F. & Ding, W. J., A&A, 653, A169
  7. Particle-in-cell Simulation of 3He Enrichment in Solar Energetic Particle Events [3]
    Li, T. M., Li, C., Ding, W. J. & Chen, P. F., ApJ, 922, 50
  8. Analyses of Laser Propagation Noises for TianQin Gravitational Wave Observatory Based on the Global Magnetosphere MHD Simulations [20]
    Su, Wei, Wang, Yan, Zhou, Chen, Lu, Lingfeng, Zhou, Ze-Bing, Li, T. M., Shi, Tong, Hu, Xin-Chun, Zhou, Ming-Yue, Wang, Ming, Yeh, Hsien-Chi, Wang, Han & Chen, P. F., ApJ, 914, 139

2020

  1. Does a Solar Filament Barb Always Correspond to a Prominence Foot? [8]
    Ouyang, Y., Chen, P. F., Fan, S. Q., Li, B. & Xu, A. A., ApJ, 894, 64
  2. Research progress on coronal extreme ultraviolet waves [13]
    Shen, Yuandeng, Li, Bo, Chen, Pengfei, Zhou, Xinping & Liu, Yu, Chinese Science Bulletin, 65, 3909
  3. Simulations of solar filament fine structures and their counterstreaming flows [61]
    Zhou, Y. H., Chen, P. F., Hong, J. & Fang, C., Nature Astronomy, 4, 994

2019

  1. Kinematics and Energetics of the EUV Waves on 11 April 2013 [14]
    Fulara, Aarti, Chandra, Ramesh, Chen, P. F., Zhelyazkov, Ivan, Srivastava, A. K. & Uddin, Wahab, Solar Physics, 294, 56
  2. The Magnetic Flux Rope Structure of a Triangulated Solar Filament [37]
    Guo, Yang, Xu, Yu, Ding, M. D., Chen, P. F., Xia, Chun & Keppens, Rony, ApJ, 884, L1
  3. Solar Magnetic Flux Rope Eruption Simulated by a Data-driven Magnetohydrodynamic Model [58]
    Guo, Yang, Xia, Chun, Keppens, Rony, Ding, M. D. & Chen, P. F., ApJ, 870, L21
  4. Chinese Hα Solar Explorer (CHASE) - a complementary space mission to the ASO-S [47]
    Li, Chuan, Fang, Cheng, Li, Zhen, Ding, Ming-De, Chen, Peng-Fei, Chen, Zhe, Lin, Liang-Kui, Chen, Chang-Zheng, Chen, Chang-Ya, Tao, Hong-Jiang, You, Wei, Hao, Qi, Dai, Yu, Cheng, Xin, Guo, Yang, Hong, Jie, An, Min-Jie, Cheng, Wei-Qiang, Chen, Jian-Xin, Wang, Wei & Zhang, Wei, Research in Astronomy and Astrophysics, 19, 165
  5. First Unambiguous Imaging of Large-scale Quasi-periodic Extreme-ultraviolet Wave or Shock [48]
    Shen, Yuandeng, Chen, P. F., Liu, Ying D., Shibata, Kazunari, Tang, Zehao & Liu, Yu, ApJ, 873, 22
  6. Damping Mechanisms of the Solar Filament Longitudinal Oscillations in the Weak Magnetic Field [25]
    Zhang, L. Y., Fang, C. & Chen, P. F., ApJ, 884, 74

2018

  1. A study of a long duration B9 flare-CME event and associated shock [6]
    Chandra, R., Chen, P. F., Fulara, A., Srivastava, A. K. & Uddin, W., Advances in Space Research, 61, 705
  2. Observations of Two Successive EUV Waves and Their Mode Conversion [17]
    Chandra, Ramesh, Chen, P. F., Joshi, Reetika, Joshi, Bhuwan & Schmieder, Brigitte, ApJ, 863, 101
  3. Recent progress in Asia-Pacific solar physics and astrophysics [0]
    Chen, P. F., Shibata, K. & Matsumoto, R., Reviews of Modern Plasma Physics, 2, 5
  4. Chinese solar physics gliding into the space age [6]
    Chen, PengFei, Science China Physics, Mechanics, and Astronomy, 61, 109631
  5. Observations of Turbulent Magnetic Reconnection within a Solar Current Sheet [139]
    Cheng, X., Li, Y., Wan, L. F., Ding, M. D., Chen, P. F., Zhang, J. & Liu, J. J., ApJ, 866, 64
  6. Automated Detection Methods for Solar Activities and an Application for Statistic Analysis of Solar Filament [5]
    Hao, Q., Chen, P. F. & Fang, C., Long-term Datasets for the Understanding of Solar and Stellar Magnetic Cycles (Editors: Banerjee, D., Jiang, J., Kusano, K. & Solanki, S.), IAU Symposium, 340, p. 101
  7. Waiting time distributions of solar and stellar flares: Poisson process or with memory? [14]
    Li, C., Zhong, S. J., Xu, Z. G., He, H., Yan, Y., Chen, P. F. & Fang, C., MNRAS, 479, L139
  8. Three-dimensional MHD Simulations of Solar Prominence Oscillations in a Magnetic Flux Rope [61]
    Zhou, Yu-Hao, Xia, C., Keppens, R., Fang, C. & Chen, P. F., ApJ, 856, 179

2017

  1. A reexamination of a filament oscillation event on 2013 March 15 [7]
    Chen, Jialin, Xie, Wenbin, Zhou, Yuhao, Yang, Kai, Ouyang, Yu & Chen, P. F., Astrophysics and Space Science, 362, 165
  2. The continued debate on solar coronal EUV waves [9]
    Chen, PengFei, Science China Physics, Mechanics, and Astronomy, 60, 29631
  3. A circular white-light flare with impulsive and gradual white-light kernels [38]
    Hao, Q., Yang, K., Cheng, X., Guo, Y., Fang, C., Ding, M. D., Chen, P. F. & Li, Z., Nature Communications, 8, 2202
  4. Statistical and theoretical studies of flares from Sagittarius A* [3]
    Li, Ya-Ping, Yuan, Qiang, Wang, Q. Daniel, Chen, P. F., Neilsen, Joseph, Fang, Taotao, Zhang, Shuo & Dexter, Jason, The Multi-Messenger Astrophysics of the Galactic Centre (Editors: Crocker, Roland M., Longmore, Steven N. & Bicknell, Geoffrey V.), IAU Symposium, 322, p. 31
  5. Understanding the Physical Nature of Coronal "EIT Waves" [89]
    Long, D. M., Bloomfield, D. S., Chen, P. F., Downs, C., Gallagher, P. T., Kwon, R.-Y., Vanninathan, K., Veronig, A. M., Vourlidas, A., Vršnak, B., Warmuth, A. & Žic, T., Solar Physics, 292, 7
  6. Chirality and Magnetic Configurations of Solar Filaments [112]
    Ouyang, Y., Zhou, Y. H., Chen, P. F. & Fang, C., ApJ, 835, 94
  7. Chaos-induced resistivity of collisionless magnetic reconnection in the presence of a guide field [5]
    Shang, Meng, Wu, De-Jin, Chen, Ling & Chen, Peng-Fei, Research in Astronomy and Astrophysics, 17, 3
  8. A Statistical Study of Flare Productivity Associated with Sunspot Properties in Different Magnetic Types of Active Regions [22]
    Yang, Ya-Hui, Hsieh, Min-Shiu, Yu, Hsiu-Shan & Chen, P. F., ApJ, 834, 150
  9. Solar Filament Longitudinal Oscillations along a Magnetic Field Tube with Two Dips [34]
    Zhou, Yu-Hao, Zhang, Li-Yue, Ouyang, Y., Chen, P. F. & Fang, C., ApJ, 839, 9
  10. Magnetic Separatrix as the Source Region of the Plasma Supply for an Active-region Filament [16]
    Zou, P., Fang, C., Chen, P. F., Yang, K. & Cao, Wenda, ApJ, 836, 122

2016

  1. Peculiar Stationary EUV Wave Fronts in the Eruption on 2011 May 11 [37]
    Chandra, R., Chen, P. F., Fulara, A., Srivastava, A. K. & Uddin, W., ApJ, 822, 106
  2. Can a Fast-Mode EUV Wave Generate a Stationary Front? [38]
    Chen, P. F., Fang, C., Chandra, R. & Srivastava, A. K., Solar Physics, 291, 3195
  3. Global Coronal Waves [44]
    Chen, P. F., Geophysical Monograph Series, 216, 381
  4. Can we determine the filament chirality by the filament footpoint location or the barb-bearing? [23]
    Hao, Qi, Guo, Yang, Fang, Cheng, Chen, Peng-Fei & Cao, Wen-Da, Research in Astronomy and Astrophysics, 16, 1
  5. High-resolution Observations of a Large Fan-shaped Surge [13]
    Li, Zhen, Fang, Cheng, Guo, Yang, Chen, P. F., Zou, Peng & Cao, Wenda, ApJ, 826, 217
  6. Investigating the Conditions of the Formation of a Type II Radio Burst on 2014 January 8 [21]
    Su, W., Cheng, X., Ding, M. D., Chen, P. F., Ning, Z. J. & Ji, H. S., ApJ, 830, 70
  7. Material Supply and Magnetic Configuration of an Active Region Filament [28]
    Zou, P., Fang, C., Chen, P. F., Yang, K., Hao, Q. & Cao, Wenda, ApJ, 831, 123

2015

  1. A numerical study on bow shocks around the lightning return stroke channel [2]
    Chen, Qiang, Chen, Bin, Chen, P. F., Yi, Yun, Mao, Yunfei & Xiong, Run, Physics of Plasmas, 22, 032904
  2. A Two-ribbon White-light Flare Associated with a Failed Solar Eruption Observed by ONSET, SDO, and IRIS [31]
    Cheng, X., Hao, Q., Ding, M. D., Liu, K., Chen, P. F., Fang, C. & Liu, Y. D., ApJ, 809, 46
  3. Magnetohydrodynamic Seismology of a Coronal Loop System by the First Two Modes of Standing Kink Waves [48]
    Guo, Y., Erdélyi, R., Srivastava, A. K., Hao, Q., Cheng, X., Chen, P. F., Ding, M. D. & Dwivedi, B. N., ApJ, 799, 151
  4. Slow Patchy Extreme-ultraviolet Propagating Fronts Associated with Fast Coronal Magneto-acoustic Waves in Solar Eruptions [19]
    Guo, Y., Ding, M. D. & Chen, P. F., ApJS, 219, 36
  5. Statistical Analysis of Filament Features Based on the Hα Solar Images from 1988 to 2013 by Computer Automated Detection Method [46]
    Hao, Q., Fang, C., Cao, W. & Chen, P. F., ApJS, 221, 33
  6. Statistics of X-Ray Flares of Sagittarius A*: Evidence for Solar-like Self-organized Criticality Phenomena [44]
    Li, Ya-Ping, Yuan, Feng, Yuan, Qiang, Wang, Q. Daniel, Chen, P. F., Neilsen, Joseph, Fang, Taotao, Zhang, Shuo & Dexter, Jason, ApJ, 810, 19
  7. Diagnostics of Ellerman bombs with high-resolution spectral data [23]
    Li, Zhen, Fang, Cheng, Guo, Yang, Chen, Peng-Fei, Xu, Zhi & Cao, Wen-Da, Research in Astronomy and Astrophysics, 15, 1513
  8. Is Flux Rope a Necessary Condition for the Progenitor of Coronal Mass Ejections? [36]
    Ouyang, Y., Yang, K. & Chen, P. F., ApJ, 815, 72
  9. MHD Seismology of a loop-like filament tube by observed kink waves [14]
    Pant, Vaibhav, Srivastava, Abhishek K., Banerjee, Dipankar, Goossens, Marcel, Chen, Peng-Fei, Joshi, Navin Chandra & Zhou, Yu-Hao, Research in Astronomy and Astrophysics, 15, 1713
  10. Fine Magnetic Structure and Origin of Counter-streaming Mass Flows in a Quiescent Solar Prominence [77]
    Shen, Yuandeng, Liu, Yu, Liu, Ying D., Chen, P. F., Su, Jiangtao, Xu, Zhi & Liu, Zhong, ApJ, 814, L17
  11. A Type II Radio Burst without a Coronal Mass Ejection [50]
    Su, W., Cheng, X., Ding, M. D., Chen, P. F. & Sun, J. Q., ApJ, 804, 88
  12. Extreme ultraviolet imaging of three-dimensional magnetic reconnection in a solar eruption [57]
    Sun, J. Q., Cheng, X., Ding, M. D., Guo, Y., Priest, E. R., Parnell, C. E., Edwards, S. J., Zhang, J., Chen, P. F. & Fang, C., Nature Communications, 6, 7598

2014

  1. Imaging and Spectroscopic Observations of a Filament Channel and the Implications for the Nature of Counter-streamings [110]
    Chen, P. F., Harra, L. K. & Fang, C., ApJ, 784, 50
  2. A unified radiative magnetohydrodynamics code for lightning-like discharge simulations [4]
    Chen, Qiang, Chen, Bin, Chen, P. F., Xiong, Run & Cai, Zhaoyang, Physics of Plasmas, 21, 032901
  3. On the Relationship Between a Hot-channel-like Solar Magnetic Flux Rope and its Embedded Prominence [86]
    Cheng, X., Ding, M. D., Zhang, J., Srivastava, A. K., Guo, Y., Chen, P. F. & Sun, J. Q., ApJ, 789, L35
  4. Variations of the 3-D coronal magnetic field associated with the X3.4-class solar flare event of AR 10930 [13]
    He, Han, Wang, Huaning, Yan, Yihua, Chen, P. F. & Fang, Cheng, Journal of Geophysical Research (Space Physics), 119, 3286
  5. Simultaneous Transverse Oscillations of a Prominence and a Filament and Longitudinal Oscillation of Another Filament Induced by a Single Shock Wave [100]
    Shen, Yuandeng, Liu, Ying D., Chen, P. F. & Ichimoto, Kiyoshi, ApJ, 795, 130
  6. Characteristics of the Photospheric Magnetic Field Associated with Solar Flare Initiation [19]
    Yang, Ya-Hui, Chen, P. F., Hsieh, Min-Shiu, Wu, S. T., He, Han & Tsai, Tsung-Che, ApJ, 786, 72
  7. Reciprocatory magnetic reconnection in a coronal bright point [16]
    Zhang, Q. M., Chen, P. F., Ding, M. D. & Ji, H. S., A&A, 568, A30
  8. Dependence of the length of solar filament threads on the magnetic configuration [34]
    Zhou, Yu-Hao, Chen, Peng-Fei, Zhang, Qing-Min & Fang, Cheng, Research in Astronomy and Astrophysics, 14, 581-588

2013

  1. A new multi-wavelength solar telescope: Optical and Near-infrared Solar Eruption Tracer (ONSET) [54]
    Fang, Cheng, Chen, Peng-Fei, Li, Zhen, Ding, Ming-De, Dai, Yu, Zhang, Xiao-Yu, Mao, Wei-Jun, Zhang, Jun-Ping, Li, Ting, Liang, Yong-Jun & Lu, Hai-Tian, Research in Astronomy and Astrophysics, 13, 1509-1517
  2. Developing an Advanced Automated Method for Solar Filament Recognition and Its Scientific Application to a Solar Cycle of MLSO Hα Data [32]
    Hao, Q., Fang, C. & Chen, P. F., Solar Physics, 286, 385
  3. Multiwavelength Study of a Solar Eruption from AR NOAA 11112: II. Large-Scale Coronal Wave and Loop Oscillation [43]
    Kumar, Pankaj, Cho, K.-S., Chen, P. F., Bong, S.-C. & Park, Sung-Hong, Solar Physics, 282, 523
  4. Parametric survey of longitudinal prominence oscillation simulations [59]
    Zhang, Q. M., Chen, P. F., Xia, C., Keppens, R. & Ji, H. S., A&A, 554, A124

2012

  1. Where do flare ribbons stop? [17]
    Chen, P. F., Su, J. T., Guo, Y. & Deng, Y. Y., Chinese Science Bulletin, 57, 1393
  2. A Converging View on EIT Waves [4]
    Chen, P. F. & Fang, C., EAS Publications Series (Editors: Faurobert, M., Fang, C. & Corbard, T.), EAS Publications Series, 55, p. 313
  3. Quadrature Observations of Wave and Non-wave Components and their Decoupling in an Extreme-ultraviolet Wave Event [27]
    Dai, Y., Ding, M. D., Chen, P. F. & Zhang, J., ApJ, 759, 55
  4. ONSET-A New Multi-Wavelength Solar Telescope [1]
    Fang, C., Chen, P. F., Ding, M. D., Dai, Y. & Li, Z., EAS Publications Series (Editors: Faurobert, M., Fang, C. & Corbard, T.), EAS Publications Series, 55, p. 349
  5. A new MHD code with adaptive mesh refinement and parallelization for astrophysics [23]
    Jiang, R.-L., Fang, C. & Chen, P.-F., Computer Physics Communications, 183, 1617
  6. Magnetic Reconnection in a Canopy-type Magnetic Configuration for Solar Microflares [0]
    Jiang, R.-L., Fang, C. & Chen, P.-F., EAS Publications Series (Editors: Faurobert, M., Fang, C. & Corbard, T.), EAS Publications Series, 55, p. 107
  7. Numerical Simulation of Solar Microflares in a Canopy-type Magnetic Configuration [41]
    Jiang, R.-L., Fang, C. & Chen, P.-F., ApJ, 751, 152
  8. Simulations of Prominence Formation in the Magnetized Solar Corona by Chromospheric Heating [111]
    Xia, C., Chen, P. F. & Keppens, R., ApJ, 748, L26
  9. Two Types of Magnetic Reconnection in Coronal Bright Points and the Corresponding Magnetic Configuration [107]
    Zhang, Q. M., Chen, P. F., Guo, Y., Fang, C. & Ding, M. D., ApJ, 746, 19
  10. Observations and simulations of longitudinal oscillations of an active region prominence [96]
    Zhang, Q. M., Chen, P. F., Xia, C. & Keppens, R., A&A, 542, A52

2011

  1. Spectroscopic Analysis of Interaction between an Extreme-ultraviolet Imaging Telescope Wave and a Coronal Upflow Region [20]
    Chen, F., Ding, M. D., Chen, P. F. & Harra, L. K., ApJ, 740, 116
  2. Coronal Mass Ejections: Models and Their Observational Basis [720]
    Chen, P. F., Living Reviews in Solar Physics, 8, 1
  3. First Evidence of Coexisting EIT Wave and Coronal Moreton Wave from SDO/AIA Observations [129]
    Chen, P. F. & Wu, Y., ApJ, 732, L20
  4. The inversion of the real kinematic properties of coronal mass ejections by forward modeling [4]
    Wu, You & Chen, Peng-Fei, Research in Astronomy and Astrophysics, 11, 237
  5. Formation of Solar Filaments by Steady and Nonsteady Chromospheric Heating [118]
    Xia, C., Chen, P. F., Keppens, R. & van Marle, A. J., ApJ, 737, 27

2010

  1. Spectroscopic Analysis of an EIT Wave/dimming Observed by Hinode/EIS [26]
    Chen, F., Ding, M. D. & Chen, P. F., ApJ, 720, 1254
  2. Synthetic analysis of a two-ribbon microflare [13]
    Fang, Cheng, Chen, Peng-Fei, Jiang, Rong-Lin & Tang, Yu-Hua, Research in Astronomy and Astrophysics, 10, 83
  3. Numerical Simulations of Chromospheric Microflares [22]
    Jiang, R. L., Fang, C. & Chen, P. F., ApJ, 710, 1387
  4. The Dependence of the EIT Wave Velocity on the Magnetic Field Strength [21]
    Yang, H. Q. & Chen, P. F., Solar Physics, 266, 59
  5. Recent progress in solar physics made during the program of 2008 August 1st solar total eclipse [3]
    Zhang, HongQi, Zhang, Mei, Lin, Jun, Chen, PengFei & Fang, Cheng, Chinese Science Bulletin, 55, 3081

2009

  1. The Relation Between EIT Waves and Coronal Mass Ejections [80]
    Chen, P. F., ApJ, 698, L112
  2. EIT waves and coronal magnetic field diagnostics [15]
    Chen, Pengfei, Science in China: Physics, Mechanics and Astronomy, 52, 1785
  3. Coronal Mass Ejection Induced Outflows Observed with Hinode/EIS [55]
    Jin, M., Ding, M. D., Chen, P. F., Fang, C. & Imada, S., ApJ, 702, 27
  4. Temporal Evolution of Free Magnetic Energy Associated with Four X-Class Flares [37]
    Jing, Ju, Chen, P. F., Wiegelmann, Thomas, Xu, Yan, Park, Sung-Hong & Wang, Haimin, ApJ, 696, 84
  5. Energy Spectrum of the Electrons Accelerated by a Reconnection Electric Field: Exponential or Power Law? [26]
    Liu, W. J., Chen, P. F., Ding, M. D. & Fang, C., ApJ, 690, 1633
  6. A New View of Coronal Waves from STEREO [61]
    Ma, S., Wills-Davey, M. J., Lin, J., Chen, P. F., Attrill, G. D. R., Chen, H., Zhao, S., Li, Q. & Golub, L., ApJ, 707, 503
  7. Evolution of Optical Penumbral and Shear Flows Associated with the X3.4 Flare of 2006 December 13 [37]
    Tan, Changyi, Chen, P. F., Abramenko, Valentyna & Wang, Haimin, ApJ, 690, 1820

2008

  1. Initiation and propagation of coronal mass ejections [26]
    Chen, P. F., Journal of Astrophysics and Astronomy, 29, 179
  2. SOHO/SUMER observations of prominence oscillation before eruption [81]
    Chen, P. F., Innes, D. E. & Solanki, S. K., A&A, 484, 487
  3. Simulations of the periodic flaring rate on YY Gem [11]
    Gao, D. H., Chen, P. F., Ding, M. D. & Li, X. D., MNRAS, 384, 1355
  4. A Magnetic Flux Tube Oscillation Model for QPOs in SGR Giant Flares [6]
    Ma, Bo, Li, Xiang-Dong & Chen, P. F., ApJ, 686, 492
  5. A Statistical Study on the Filament Eruption Caused by New Emerging Flux [13]
    Xu, Xiao-yan, Fang, Cheng & Chen, Peng-fei, Chinese Astronomy and Astrophysics, 32, 56

2007

  1. Magnetic reconnection configurations and particle acceleration in solar flares [5]
    Chen, P. F., Liu, W. J. & Fang, C., Advances in Space Research, 39, 1421
  2. Evolution of electron energy spectrum during solar flares [1]
    Liu, W. J., Chen, P. F., Fang, C. & Ding, M. D., Advances in Space Research, 39, 1394

2006

  1. On the CME velocity distribution [41]
    Chen, A. Q., Chen, P. F. & Fang, C., A&A, 456, 1153
  2. Transition-Region Explosive Events: Reconnection Modulated by p-Mode Waves [111]
    Chen, P. F. & Priest, E. R., Solar Physics, 238, 313
  3. The Relation between EIT Waves and Solar Flares [92]
    Chen, P. F., ApJ, 641, L153
  4. Why are there stationary EIT wave fronts [7]
    Chen, P. F., Fang, C. & Shibata, K., Advances in Space Research, 38, 456
  5. Two candidate homologous CMEs on 2002 May 22 [2]
    Cheng, J. X., Fang, C. & Chen, P. F., Advances in Space Research, 38, 470
  6. Spectral Analysis of Ellerman Bombs [118]
    Fang, C., Tang, Y. H., Xu, Z., Ding, M. D. & Chen, P. F., ApJ, 643, 1325
  7. Two Successive Coronal Mass Ejections Driven by the Kink and Drainage Instabilities of an Eruptive Prominence [55]
    Zhou, G. P., Wang, J. X., Zhang, J., Chen, P. F., Ji, H. S. & Dere, K., ApJ, 651, 1238

2005

  1. A Full View of EIT Waves [201]
    Chen, P. F., Fang, C. & Shibata, K., ApJ, 622, 1202
  2. Synthesis of CME-Associated Moreton and EIT Wave Features from MHD Simulations [36]
    Chen, P. F., Ding, M. D. & Fang, C., Space Science Reviews, 121, 201
  3. Two Sympathetic Homologous CMEs on 2002 May 22 [23]
    Cheng, Jian-Xia, Fang, Cheng, Chen, Peng-Fei & Ding, Ming-De, Chinese Journal of Astronomy and Astrophysics, 5, 265
  4. Self-Consistent Magnetohydrodynamic Modeling of a Coronal Mass Ejection, Coronal Dimming, and a Giant Cusp-shaped Arcade Formation [74]
    Shiota, Daikou, Isobe, Hiroaki, Chen, P. F., Yamamoto, Tetsuya T., Sakajiri, Takuma & Shibata, Kazunari, ApJ, 634, 663
  5. A Parametric Survey of the CME Triggering Process by Numerical Simulations [8]
    Xu, Xiao-Yan, Chen, Peng-Fei & Fang, Cheng, Chinese Journal of Astronomy and Astrophysics, 5, 636
  6. Waiting Time Distribution of CMES [2]
    Yeh, C.-T., Ding, M. D. & Chen, P. F., Solar Magnetic Phenomena (Editors: Hanslmeier, Arnold, Veronig, Astrid & Messerotti, Mauro), Astrophysics and Space Science Library, 320, p. 171
  7. Waiting Time Distribution of Coronal Mass Ejections [6]
    Yeh, Chin-Teh, Ding, Ming-De & Chen, Peng-Fei, Chinese Journal of Astronomy and Astrophysics, 5, 193
  8. Kinetic Properties of CMEs Corrected for the Projection Effect [20]
    Yeh, Chin-Teh, Ding, M. D. & Chen, P. F., Solar Physics, 229, 313

2004

  1. A Reexamination of the Evidence for Reconnection Inflow [37]
    Chen, P. F., Shibata, K., Brooks, D. H. & Isobe, H., ApJ, 602, L61

2003

  1. Hα and Hard X-Ray Observations of a Two-Ribbon Flare Associated with a Filament Eruption [35]
    Ding, M. D., Chen, Q. R., Li, J. P. & Chen, P. F., ApJ, 598, 683

2002

  1. Evidence of EIT and Moreton Waves in Numerical Simulations [294]
    Chen, P. F., Wu, S. T., Shibata, K. & Fang, C., ApJ, 572, L99
  2. Coronal mass ejections and emerging flux [3]
    Chen, P. F., Fang, C., Shibata, K. & Tang, Y. H., Advances in Space Research, 30, 535
  3. The Temperature and Density Structure of an Hα Flaring Loop [6]
    Ding, M. D., Liu, Y. & Chen, P. F., Solar Physics, 207, 125
  4. A numerical study of flaring loop dynamics during magnetic reconnection [0]
    Fang, C., Chen, P. F., Tang, Y. H. & Di, X. H., Advances in Space Research, 29, 1445

2000

  1. An Emerging Flux Trigger Mechanism for Coronal Mass Ejections [484]
    Chen, P. F. & Shibata, K., ApJ, 545, 524
  2. Numerical Study on the Effect of Heat Conduction on Magnetic Reconnection [1]
    Chen, P. F., Fang, C., Tang, Y. H. & Ding, M. D., Advances in Space Research, 26, 525
  3. Pseudo-reconnection in MHD numerical simulation. [15]
    Chen, Pengfei, Fang, Cheng & Hu, Youqiu, Chinese Science Bulletin, 45, 798
  4. A Unified Model of Coronal Mass Ejection-related Type II Radio Bursts [22]
    Magara, Tetsuya, Chen, Pengfei, Shibata, Kazunari & Yokoyama, Takaaki, ApJ, 538, L175

1999

  1. Flaring Loop Motion and a Unified Model for Solar Flares [38]
    Chen, P. F., Fang, C., Ding, M. D. & Tang, Y. H., ApJ, 520, 853
  2. Simulation of Magnetic Reconnection with Heat Conduction [72]
    Chen, P. F., Fang, C., Tang, Y. H. & Ding, M. D., ApJ, 513, 516

Created on Wed Apr 8 04:38:30 2026.